Brain-based learning: what is, how to use it and examples

Brain-based learning integrates neuroscience, neuroplasticity, cognitive development, emotional engagement, and active learning to improve memory retention and student motivation.

In recent decades, research has revealed the transformative power of the traditional classroom as a learning space. It has been proven that when information is presented in a strategic and engaging way, students’ cognitive functioning is optimized and their motivation and willingness to learn are significantly increased.

So that you too can be part of this educational transformation, we invite you to continue discovering what brain-based learning is, how to apply it in the classroom—whether in person or online—and what specific strategies you can implement starting today.

What is brain-based learning? A neuroscientific foundation

Brain-based learning (BBL) is an educational strategy based on neuroscience and cognitive science to develop educational techniques, strategies, and contexts based on how the brain is designed to learn. In other words, it is brain-based education.

It combines different disciplines such as neurology, biology, and psychology and applies them to real situations in the classroom to design school programs and lessons tailored to each moment of the student’s life as they develop emotionally, socially, and cognitively.

The result is an improvement in teaching, but also in the experience of the student, who feels more comfortable, neurologically speaking. Learning becomes more effective through engagement, strategic design, and understanding of brain functions, and contributes to the development of individuals who are capable of self-management and improvement.

This new approach has been driven by closer collaboration between brain scientists and learning scientists, for example, with regard to new findings on brain plasticity.

Neuroplasticity, defined as the brain’s ability to change its structure, functions, and connections in response to intrinsic or extrinsic stimuli (Puderbaugh & Emmady, 2023), is a key foundation for BBL. Thus, the more new skills are practiced, the easier learning becomes.

Objective of brain-based learning

The objective of brain-based learning is to improve students’ understanding, participation, and retention by aligning teaching strategies with the way the brain learns naturally.

In this vein, educational strategies focus on adapting to the needs and circumstances of the individual learner.

Origins and foundational theories

Brain-based learning originated in the 1990s and is linked to two names: Geoffrey Caine and Renate Nummela Caine and their work on the 12 Brain/Mind Natural Learning Principles.

Their research conceives of the brain as a social organ that seeks and develops patterns and is driven by emotions, making more holistic, student-centered teaching more effective.

Since 1999, the OECD’s Centre for Educational Research and Innovation (CERI) has been working on a project to enhance synergies between brain research and learning sciences, with forums that promote interdisciplinary development and collaborative initiatives between researchers and policymakers.

Why brain-based learning works: neuroscience insights

The brain-based learning strategy is based on the neuroplasticity of the brain, which allows it to reconfigure and adapt as it learns, while taking into account the emotional state of students, which influences their attention and memory capacity.

Neuroplasticity is also influenced by factors such as diet, exercise, stress levels, and a person’s emotional state, all of which must be taken into account in a comprehensive educational approach. In other words, BBL develops strategies that consider the relationship between all the factors that influence learning.

Neuroplasticity and neural pathways

Neuroplasticity involves synaptic strengthening and neural reconnection and plays a fundamental role in learning, memory, and emotional regulation.

It is influenced by factors such as physical activity, repetition, novelty, and feedback, which are dynamics that must be introduced into teaching to allow students to build and reinforce neural pathways throughout their lives.

Cognitive development and memory retention

Scientific research reveals that cognitive development and memory retention are interrelated processes that undergo significant changes in childhood and adolescence.

As the brain matures, working memory capacity improves, facilitating the accumulation of knowledge. This process helps to offload information into long-term memory, which increases the capacity for subsequent learning activities.

This process is described in The Role of Working in Long-Term Learning: Implications for Childhood Development (Forsberg, Adams & Cowan, 2022), a study that analyzes the connection between working memory and long-term learning.

Emotional states, attention, and commitment to learning

Recent research is redefining our understanding of the role that emotions and stress play in the learning process, challenging the premises of conventional education.

Thus, understanding how emotional states affect the brain’s ability to retain information is essential when addressing the challenges of learning in informational societies.

Isolation, fatigue, boredom, and frustration act as threats that inhibit effective learning. In contrast, a relaxed alertness, combining low threat and high challenge, provides a motivating and positively challenging educational environment that promotes knowledge acquisition.

So much so that the Yale Center for Emotional Intelligence has developed a project focused on social and emotional learning (SEL) called RULER, led by Marc Brackett. It is an acronym for five emotional intelligence skills: Recognizing, Understanding, Labeling, Expressing, and Regulating.

How brain-based learning is transforming education: strategic benefits

To help you understand the transformation that brain-based learning is bringing about in student learning and performance, we are going to present some of the most relevant benefits.

They will give you an idea of why this approach is revolutionizing the way we teach and learn with techniques and strategies that stimulate students.

Improves memory and retention

Brain-based learning uses techniques such as chunking, a methodology that groups small units of information (chunks) into larger blocks to facilitate data processing and enhance memorization and recall.

Another learning technique that adapts to the way the brain works is spaced repetition, which helps strengthen the memory process by reviewing information at increasing intervals, just before it is forgotten.

Increases student participation, concentration, and motivation

Movement, varied sensory stimuli, and novelty keep students engaged in the educational process and maintain their enthusiasm.

Strengthens students’ emotional resilience and well-being

As you know, attention and emotions are essential for consolidating memories and achieving effective learning.

Techniques such as mindfulness help manage stress and create positive emotional states that promote learning.

Supports inclusive teaching and differentiation

One of the premises of brain-based learning is the recognition of students’ brain diversity, which involves adapting methods and content to each student’s learning pace.

In this context, diversity becomes a core value in the classroom, creating a more inclusive classroom.

Promotes deep, meaningful, and contextualized learning

This type of education encourages the search for patterns and develops skills such as critical thinking and problem-solving, promoting authentic understanding and knowledge transfer, as opposed to the simple memorization of data that lacks meaning for the student.

Enhances cooperation and peer learning

Through group work and peer learning, students develop important interpersonal skills such as empathy, respect, collaboration, and active listening.

Reduces dependence on passive lectures

Passive lectures have been the mainstay of traditional teaching for decades, a paradigm that is changing thanks to digitalization and advances in educational neuroscience.

Continuous exposure, where students are limited to listening, is replaced by practical activities, debates, and guided exploration to increase retention and active participation.

Improves physical and psychological health

As we have mentioned, low threat and high challenge contribute to emotional well-being, which predisposes students to learn. Positive affirmations and constructive criticism, which turn mistakes into opportunities, have a positive impact on students’ overall health.

In the following table, we have prepared a summary of the benefits of brain-based learning to provide greater clarity to our presentation:

Benefit	Area of impact	Principle involved
Memory and retention	Cognition	Neuroplasticity, fragmentation, recovery practice
Commitment and focus	Attention and motivation	Physical activity, sensory stimuli
Emotional well-being	Social-emotional and behavioral	Emotional regulation, stress management
Inclusion and diversity	Differentiation and equity	Unique brain organization
Deep learning	Transfer and understanding	Identifying patterns and searching for meaning

What are the basic principles of brain-based learning?

Brain-based learning is based on a series of basic principles that reflect how the brain naturally processes information. These principles, which combine knowledge from neuroscience, psychology, and education, help teachers design learning environments that are safe, stimulating, engaging, and aligned with how students learn best.

We invite you to explore the theoretical foundations with us, particularly through the 12 principles of natural learning by Renate and Geoffrey Caine, as well as their practical implications, such as sensory stimulation, the development of skills such as concentration and self-regulation, and feedback.

The 12 brain/mind natural learning principles

The principles of natural learning proposed by Caine & Caine in their multidisciplinary research should be seen, according to the researchers, as gateways to educational research.

They argue that learning is a holistic process in which the body, brain, and mind function as a dynamic and adaptive unit.

For this reason, these principles highlight the importance of considering both conscious and unconscious processes, the diversity of each learning profile, and the need to create educational environments and content that foster motivation, curiosity, and overall well-being in the classroom.

The following table shows Caine & Caine’s 12 principles, which, as you will see, are interrelated:

Principle	Description
The brain is a complex adaptive system.	Processes are interactive and concurrent. Thoughts, emotions, memory, and imagination interact with each other, but also with the social and cultural environment.
Learning involves the entire physiology.	Learning can be facilitated or blocked by physiological processes, synaptic interactions, and life experiences.
The search for meaning is innate.	Human beings need to give meaning and significance to their experiences.
The search for meaning occurs through patterns.	The brain generates patterns to make sense of experience.
Emotions are fundamental to creating patterns.	The organization of information, memory, and recollection are influenced by biases, prejudices, expectations, social interaction, and other factors.
The brain simultaneously perceives and creates parts and wholes.	The right and left hemispheres interact by processing information separately but also simultaneously.
Learning involves both focused attention and peripheral perceptions.	The information that is absorbed involves not only what is conscious, but also what lies beyond the field of vision.
Learning always involves conscious and unconscious processes.	Human beings learn and remember what they consciously experience, but also what they are told unconsciously.
The brain works with two types of memory: spatial memory and mechanical memory (focused on learning routines).	Spatial memory retains information immediately and is always active, whereas data and certain skills require practice to be remembered.
The brain understands and remembers better when facts and skills are integrated into natural spatial memory systems.	Experiential education shapes the internal processes and social context of learning. Thus, when new things are incorporated into everyday life, learning improves.
Learning is encouraged by challenges and inhibited by threats.	Challenges should be appropriate and not cause excessive stress, or learning may be blocked.
Every brain is unique.	Each person integrates emotions and experiences in a unique way, and learning itself changes the brain.

Feedback, reflection, and executive functions

Feedback, reflection, and executive functions allow students to consolidate knowledge, adjust teaching strategies, and promote more meaningful learning.

Eric Jensen, in his article Understanding Brain-Based Learning, refers to these components as essential elements of lasting brain change.

In order for students to reflect on their learning, they need structured opportunities that strengthen neural connections.

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Sensory engagement and multisensory learning

Visual stimulation, playful techniques such as gamification, emotional connection, meaningful content, combined with attractive environments and proper nutrition, are elements that promote deep learning and sensory activation.

Meaningful learning and patterning

When educational spaces recognize both the biological and social background of students, they promote meaningful learning and the recognition of essential cognitive patterns that are relevant to their overall development.

Brain-based vs traditional learning: key differences

Before delving deeper into how you can implement brain-based learning in the classroom, we suggest taking a look at a brief summary of the differences between this new paradigm and traditional learning:

Factor	Brain-based learning	Traditional learning
Teaching style	Collaborative, experience-based, and inclusive	Based on master classes
Role of the student	Actively participate in your learning process	It is a passive receiver of information.
Atmosphere	Comfortable spaces designed for participating in different activities. One example is the learning situations.	Traditional classroom setup with desks in rows
Activities	Active methodologies and spaces that allow movement around the classroom to stimulate the brain.	Sedentary, based on textbooks and worksheets
Stress management	Breathing techniques, improvement of conscious attention and limitation of master classes. Search for a balance between demands and challenges.	Limited attention to stress factors. Teaching more threatening and less challenging.
Cognitive diversity	Identify the cognitive abilities of each student to adapt the program.	A “one size fits all” approach that does not consider differentiation.

How to use brain-based learning in the classroom: effective strategies 

Brain-based learning applies principles of neuroscience to education to create environments that foster motivation and retention. This dynamic recognizes that the brain learns best when multiple senses are stimulated, social interaction is encouraged, and attention spans are respected.

Strategies such as active retrieval and concept maps strengthen understanding and enhance memory, while structuring lessons into short blocks and valuing diversity help to respond to the needs of different learning styles.

Below are some examples of strategies and techniques you can use in class.

Structure learning in manageable chunks

Divide classes into smaller segments to avoid cognitive overload. After each part, introduce retrieval exercises such as quizzes and group tasks.

This reinforces learning, improves long-term retention by beating the forgetting curve, and predisposes the brain to assimilate new information.

Incorporate movement and brain breaks

Physical activity stimulates neurogenesis and improves memory, mood, and attention. Have you ever heard someone say to go outside and get some fresh air if you’re feeling stuck?

Activities such as walking, dancing, or stretching revitalize students, especially after intense tasks that require significant cognitive effort.

Promote social and collaborative learning

The brain thrives on social interaction, so discussions, project-based learning, and “turn and talk” strategies (where students take turns discussing a topic with a partner) activate deep processing based on verbalization and feedback.

Use visuals and repetition to reinforce patterns

Mental maps or concept maps, diagrams, color-coded notes, and any type of visual aid promote memory through pattern recognition.

When combined with techniques such as spaced repetition and self-assessment, you will help your students strengthen their neural connections.

Create emotionally safe and stimulating environments

We could say that learning flourishes in relaxed and emotionally supportive environments where a constructive culture is fostered and mistakes are seen as part of the process.

Likewise, meaningful tasks rich in context, incorporating novel elements, storytelling, and multisensory stimuli help maintain students’ attention and motivation.

In any case, the guidelines to follow when implementing brain-based learning strategies can be summarized in four steps:

1. Assess your student’s needs.
2. Select and adapt the right strategies.
3. Integrate tools and technologies.
4. Reflect, adjust, and measure outcomes.

Examples of brain-based learning applications according to educational level

Active methodologies are key, regardless of the educational level you are working with. The following examples of brain-based learning activities according to the stage the student is at demonstrate this:

• K-12 Classroom. You can use music, movement, storytelling, and visual maps to stimulate learning in younger students. It is important to change activities frequently to adapt them to natural attention cycles, as well as to encourage group work.
• Higher education & adult learners. Here, concept maps, group discussions, and research-based tasks can be great allies. It is important to encourage metacognition (reflection on one’s own learning) and set personalized goals.
• Online learning. E-learning offers great versatility. It incorporates interactive modules, short review tasks, and built-in mental breaks. The key to online education lies in designing content that leverages multimedia resources and adapts to multiple intelligences.

Final reflections and key takeaways: where neuroscience and technology intersect

Throughout this article, you have seen how brain-based learning is a human-centered pedagogy backed by science. This strategy respects the natural way in which the brain learns through emotions, pattern recognition, goals, and meaningful connections.

This dynamic invites educators to rethink teaching from a multidisciplinary perspective that integrates neuroscience, psychology, education, and technology to improve academic outcomes and student well-being.

The ultimate goal is not limited to the transmission of knowledge, but seeks to unleash the full cognitive potential of the learner.

Key takeaways

Teach in chunks with built-in retrieval and movement.Foster emotional safety and social learning.Use visual, spaced, and inquiry-based strategies.Leverage AI to support—not stress—the learner.Always align teaching with how the brain learns best.

At Smowltech, we align ourselves with brain-based learning strategies, helping to build, thanks to our proctoring plans, assessment environments that offer a fluid, respectful experience conducive to concentration and stress reduction.

We invite you to see for yourself by requesting a free demo, during which we will also answer your questions and explain in detail how we can tailor our solutions to your project.

Expand your understanding: recommended sources and key readings

If you want to go beyond the basics, we invite you to explore these sources to learn more about brain-based learning:

• Brain-Based Learning: The New Paradigm of Teaching, Eric Jensen. This book translates decades of educational neuroscience into strategies that can be applied in the classroom.
• Edutopia. This is an initiative of the George Lucas Educational Foundation where you can find case studies and accessible articles on how to apply brain-based learning techniques in K-12 and online education settings.
• University of San Diego & American University. These are pioneering institutions with applied research and faculty working on the integration of neuroscience and instructional design.
• Arrowsmith School. This school presents an innovative model for supporting students with learning difficulties, focusing on neuroplasticity.
• Neuroteach, brain science and the future of education, Glenn Whitman and Ian Kelleher. This book presents teachers as brain transformers.

Updated on 15/07/2026